Erythrocyte deformability

Visible Validation in Lab tests demonstrate no direct relationship between module size and deformations

Retrieved on: 
Tuesday, March 21, 2023
Aluminium, BOS, Cell, LCOE, YS, Steel, PV, Risk, Water, Erythrocyte deformability, Conformity, Growth, Glass, Renewable energy, Printed circuit board, Titan, EL

Solar power stations can cut costs by using large-size modules that significantly reduce balance-of-system (BOS) costs and the LCOE.

Key Points: 
  • Solar power stations can cut costs by using large-size modules that significantly reduce balance-of-system (BOS) costs and the LCOE.
  • All deformations caused by pressures that do not exceed YS are elastic deformations, also known as recoverable deformations.
  • Such deformations do not damage the material's structure as only pressures exceeding the YS can cause destructive plastic deformations.
  • In brief, it is simply wrong to say that the larger a module is, the more deformations it must has.

Visible Validation in Lab tests demonstrate no direct relationship between module size and deformations

Retrieved on: 
Monday, March 20, 2023
Aluminium, BOS, Multimedia, Cell, LCOE, YS, Steel, PV, Risk, Water, Erythrocyte deformability, Conformity, Growth, Glass, Renewable energy, Printed circuit board, Titan, EL

Solar power stations can cut costs by using large-size modules that significantly reduce balance-of-system (BOS) costs and the LCOE.

Key Points: 
  • Solar power stations can cut costs by using large-size modules that significantly reduce balance-of-system (BOS) costs and the LCOE.
  • All deformations caused by pressures that do not exceed YS are elastic deformations, also known as recoverable deformations.
  • Such deformations do not damage the material's structure as only pressures exceeding the YS can cause destructive plastic deformations.
  • In brief, it is simply wrong to say that the larger a module is, the more deformations it must has.

Kanazawa University research: The offshoot of cells visualized in real time

Retrieved on: 
Tuesday, November 8, 2022
Rupture disc, Diagnosis, Journal of Extracellular Vesicles, AFM, PH, Microscopy, Kanazawa University, NPC, Seversky SEV-3, Elasticity, Behavior, Disease, Journal, Thermoregulation, Nanoparticle, Drug development, Osmotic pressure, Temperature, Protein, Seminal vesicles, Tissue, DNA, Cell, Research, Erythrocyte deformability, Membrane, Microscope, Extrusion, Tanning (leather), SEV

Small extracellular vesicles (sEVs) are tiny sacs released by cells to deliver chemical messengers to other cells.

Key Points: 
  • Small extracellular vesicles (sEVs) are tiny sacs released by cells to deliver chemical messengers to other cells.
  • A research team led by Richard Wong and Keesiang Lim at Kanazawa University has now used an advanced form of microscopy to elucidate these changes in real time.
  • Thus, research on sEVs for drug development requires a deeper understanding of how stressful environments affect the vesicles' structure.
  • Small extracellular vesicles (sEVs): sEVs are sacs containing chemicals such as proteins, DNA, or metabolites released by cells.

Kanazawa University research: The offshoot of cells visualized in real time

Retrieved on: 
Tuesday, November 8, 2022
Rupture disc, Diagnosis, Sea, Journal of Extracellular Vesicles, Technology, AFM, PH, Microscopy, Kanazawa University, NPC, SEV (company), Elasticity, Behavior, Disease, School, Journal, Thermoregulation, Ministry, Nanoparticle, Humanities, Drug development, Osmotic pressure, Student, University, Culture, Temperature, History, Protein, Seminal vesicles, Tissue, DNA, Medicine, List, Cell, Research, Erythrocyte deformability, Membrane, Microscope, Extrusion, Tanning (leather), Sport, SEV, Science, Education

Small extracellular vesicles (sEVs) are tiny sacs released by cells to deliver chemical messengers to other cells.

Key Points: 
  • Small extracellular vesicles (sEVs) are tiny sacs released by cells to deliver chemical messengers to other cells.
  • A research team led by Richard Wong and Keesiang Lim at Kanazawa University has now used an advanced form of microscopy to elucidate these changes in real time.
  • The University is located on the coast of the Sea of Japan in Kanazawa a city rich in history and culture.
  • Kanazawa University is divided into two main campuses: Kakuma and Takaramachi for its approximately 10,200 students including 600 from overseas.

Cell Groups Push, Rather than Pull, Themselves Into Place As Organs Form and Cancers Spread

Retrieved on: 
Monday, February 14, 2022
Memorial Sloan Kettering Cancer Center, Biran, NYU, Courant Institute of Mathematical Sciences, Nutrient, New York University Grossman School of Medicine, Tissue, Motion, Basement membrane, NYU Langone Health, Department, Doctor of Philosophy, Erythrocyte deformability, Movement, Animal, Tail, Skeleton, Integrin, Sugar, Cell, Student, National, Mathematical sciences, Advanced Micro Devices, National Institutes of Health, Bacteria, Protein, Adhesive, Cancer, Rubber industry in Malaysia, Software, Nature Cell Biology, Zebrafish, American Heart Association, Foot, Cell biology, National Science Foundation, Microscope, Vaccine, Pharmaceutical industry, New York University

Published online in Nature Cell Biology on February 14, a new study found in a living embryo that the back ends of moving cell groups push the group forward.

Key Points: 
  • Published online in Nature Cell Biology on February 14, a new study found in a living embryo that the back ends of moving cell groups push the group forward.
  • This runs contrary to previous findings, where cell groups grown in dishes of nutrients (cultures) pulled themselves forward with their front edges.
  • The integrin clusters (focal adhesions) observed in the embryo were smaller than those seen in culture studies, and broke down faster.
  • Confirmation of such mechanistic details in living tissue have important implications, say the researchers, as many cancers spread in cell groups, and may use the newfound "rear engine propulsion."